<p>铝铸件以其轻量特性和卓越的高温耐受能力而著称，提供无与伦比的强度、抗腐蚀性和优越的散热性能。 </p>

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铝压铸

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<ul><li>全球140多台机器</li><li>吨数从125吨到580吨不等</li><li>最大部件重量8公斤（17.62磅）</li><li>成本效益高</li><li>轻量特性</li><li>增强的强度和硬度</li><li>适当的刚度和强度重量比</li><li>卓越的抗腐蚀性</li><li>出色的表面处理特性</li><li>可回收性</li><li>易于灭菌</li><li>散热性</li><li>高操作温度</li><li>优越的热导率</li><li>高电导率</li></ul>

铝压铸能生产具有优越耐热性的轻量部件，并且比其他任何压铸合金拥有更多表面处理选项。其多功能性、抗腐蚀性和尺寸稳定性使其适合各种应用。

概述

选择的原因

铝？

<ul><li>多滑移压铸</li><li>热室压铸</li><li>冷室压铸</li><li>叠模</li></ul>

铝压铸与多种不同的铸造技术兼容。

兼容技术

技术

<ul><li>A380</li><li>A383 (ADC12)</li><li>ADC12</li><li>B390</li><li>A413</li><li>A413HP</li><li>K合金</li><li>A360</li><li>EN AC-46000</li><li>EN AC-44300</li><li>EN AC-47100</li><li>43500</li><li>ADC10</li><li>AlSi12Cu</li><li>ENAC44300</li><li>AlSi9Cu3 (Fe)</li><li>AlSi12Cu1 (Fe)</li><li>AlSi12 (Fe)</li><li>AlSi10MnMg</li><li>ADC6</li><li>AC4CH</li><li>AlSigC3</li><li>LM-24</li><li>LM-27</li><li>ENAC 47100</li></ul>

我们的铝合金被定制以提供特定的结果和优势：

合金

了解更多

A380是一种指定非常多的铝合金，具有多项显著优势。

A380

如果您的组件非常复杂，383 – 在亚洲也称为ADC12 – 通常用作A380的替代品。

A383 (ADC12)

B390是一种具有高硬度和良好耐磨性的铝合金。

B390

A413是一种具有卓越压力密封性的铝合金。

A413

413是一种用于压铸部件的铝基合金。413合金的镁含量高于A413，铁含量低。

K合金是一种铝冷室压铸合金，旨在保护组件免受恶劣操作环境的影响。

K合金

A360是一种具有优良压力密封性和流动性的铝合金。

A360

合金特性和应用

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金属选择工具

使用我们的金属选择工具，更详细地探索我们合金的机械和物理特性。

智能合金选择从这里开始

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我们的先进材料允许更大的设计灵活性，提高每个项目的部件质量。

金屬

Dynacast - 金屬 - 鋅 - L2

金属

Dynacast - 金属 - 镁 - L2

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Dynacast Metal Selector Tool Values (3).xlsx

动态过程与金属选择器

Dynacast - 金属选择工具 - L2

我们的金属选择如何通过定制促进创新

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<h2>The Robotics Market Opportunity</h2><p>Robotics is reaching a key moment in its evolution. Manufacturers are quickly moving from low-volume prototypes to high-volume production. Whether in collaborative robots (cobots), autonomous mobile robots (AMRs), quadrupeds, or humanoid systems, the goal is clear: achieve commercial success at scale.</p><p>However, scaling production introduces a critical constraint—cost. To compete in the market, robotics manufacturers must significantly reduce total production costs. Many early-stage designs rely heavily on CNC-machined components, which are precise but slow, expensive, and difficult to scale.</p><p>This creates a fundamental challenge: how do <a href="/resources/article/design-for-manufacturing-in-robotics" target="_self">robotics manufacturers maintain precision and performance</a> while transitioning to a cost-effective, repeatable production process?</p><h3>The Challenge: From Prototype to Production</h3><p>Most robotic systems share a common architecture that includes joint nodes, structural links, actuator housings, drive modules, and heatsinks. These components are often assembled from multiple machined parts, brackets, and fasteners.</p><p>While effective for prototyping, this approach introduces several issues at scale:</p><ul><li>High production costs due to extensive machining</li><li>Increased assembly complexity and labor</li><li>Mechanical failure points at fasteners and joints</li><li>Weight inefficiencies that reduce battery life and payload capacity</li><li>Thermal management challenges in high-torque applications</li></ul><p>To move from prototype to production, manufacturers need a solution that simplifies design, reduces cost, and improves performance without sacrificing precision.</p><h3>Where Die Casting Fits</h3><p><a href="/die-casting-technologies/multi-slide" target="_self">High-pressure die casting</a> offers a transformative path forward for robotics manufacturing. It is particularly well-suited for:</p><ul><li>Compact, high-load joint nodes</li><li>Bearing interface housings</li><li>Multi-axis joint structures</li><li>Actuator and gearbox housings</li><li>Wheel drive modules and suspension nodes</li><li>Structural links such as hip, knee, and arm housings</li><li>And more.</li></ul><p>By enabling near-net-shape production of complex geometries, die casting replaces multi-part assemblies with single, integrated components.</p><h2>The Dynacast Solution: Engineering for Performance and Scale</h2><p>Dynacast helps robotics manufacturers overcome these challenges by delivering precision-engineered die cast components that support both performance and scalability.</p><ul><li><strong>Part Consolidation</strong>: Die casting allows engineers to replace dozens of machined parts with a single structural casting. Integrated rib structures and mounting interfaces improve stiffness while consolidating multiple machined components into one rigid, reliable part. This reduces assembly time and eliminates common failure points.</li><li><strong>Weight Reduction</strong>: Using low-density aluminum and magnesium alloys, Dynacast produces ultra-thin, high-strength walls that significantly reduce overall system weight, extending battery life and increasing payload capacity.</li><li><strong>Thermal Management</strong>: Integrated cooling fins can be cast directly into motor and actuator housings, improving heat dissipation and enabling continuous high-torque operation without overheating.</li><li><strong>Mass Scalability</strong>: Unlike CNC machining, Dynacast die casting supports high-speed, repeatable production at global scale. This enables robotics companies to meet growing demand while maintaining consistent quality and reducing per-unit costs.</li></ul><h2>Precision Engineering Advantages</h2><p>Dynacast’s high-pressure die casting process delivers:</p><ul><li>Exceptional strength, rigidity, and durability</li><li>Tight tolerances for precise bearing alignment and repeatability</li><li>Natural EMI/RFI shielding through metal enclosures</li><li>High-quality surface finishes suitable for critical applications</li></ul><p>These benefits are essential for robotics systems that demand precision, reliability, and long operational lifespans.</p><h3>Identifying the Right Fit</h3><p>Dynacast is best suited for robotics programs that show:</p><ul><li><a href="/metals/aluminum" target="_self">Aluminum</a> or <a href="/metals/magnesium" target="_self">magnesium</a> structural housings</li><li>CNC-heavy joint or actuator assemblies</li><li>Multi-part designs with alignment challenges</li><li>Plans for volume ramp and commercialization</li></ul><p>By contrast, applications limited to sheet metal enclosures or one-off prototypes may not fully benefit from die casting.</p><h3>Real-World Conversion Opportunities</h3>Key opportunities for design optimization include:<ul><li><strong>Integrated joint actuator frames</strong>: Optimized rib structures and integrated interfaces improve stiffness-to-weight performance while consolidating complex assemblies into a single casting.</li><li><strong>Gripper and end effector bases</strong>: Integrated rib structures and mounting interfaces improve stiffness while reducing part count and assembly complexity.</li><li><strong>Structural components</strong>: Shoulder joints, quadruped foot bases, and arm link housings all benefit from increased durability and reduced weight.</li></ul><h3>Accelerating Robotics Innovation with Dynacast</h3><p>As robotics companies push toward mass adoption, the ability to reduce cost, improve performance, and scale production is critical. Dynacast combines <a href="/die-casting-technologies" target="_self">advanced die casting technology</a>, <a href="/additional-capabilities/engineering" target="_self">engineering expertise</a>, and <a href="/locations" target="_self">global manufacturing capabilities</a> to help customers meet these demands faster and more efficiently.</p><p>By rethinking how robotic components are designed and manufactured, Dynacast enables the next generation of robotics innovation.</p>

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Learn how die casting helps robotics manufacturers reduce cost, improve performance, and scale production with precision components.

Robotics Manufacturing Challenges Solved with Die Casting | Dynacast

Solving Robotics Manufacturing Challenges with Precision Die Casting

<p>資料中心產業處於當今數位經濟的最前線，推動從雲端運算、人工智慧到串流與即時服務等各方面。隨著需求成長，資料中心背後的基礎設施正迅速演進，變得更大、更有效率，且在全球更具策略性分布。在此環境中，高性能、可靠且可擴展的壓鑄元件至關重要。</p><h2>推動資料中心成長的關鍵趨勢</h2><p>全球資料中心市場有幾個關鍵趨勢正在重塑：&nbsp;</p><ul><li><strong>大規模擴張</strong>：超大規模資料中心成長迅速， <a href="https://www.srgresearch.com/articles/hyperscale-data-center-count-hits-1136-average-size-increases-us-accounts-for-54-of-total-capacity?utm_source=chatgpt.com" target="_self">截至2024年底，已建成超過1,100個站點</a>。美國依然領先，擁有全球超過一半的超大規模產能。</li><li><strong>超大規模企業掌控</strong>局勢：市場正逐漸轉變，超大規模企業目前經營約 <a href="https://www.datacenterknowledge.com/hyperscalers/hyperscalers-will-command-60-of-global-data-center-capacity-by-2030-report?utm_source=chatgpt.com" target="_self">44%的全球資料中心容量</a>，預計到2030年將增至60%。</li><li><strong>新成長熱點</strong>：雖然主要市場仍在擴展，但包括 <a href="https://www.cbre.com/insights/reports/global-data-center-trends-2025?utm_source=chatgpt.com" target="_self">里士滿、聖地牙哥和孟買</a>等新區域正逐漸成為成長的關鍵地點。</li><li><strong>數十億投資</strong>：私募股權與基礎建設投資人正投入數十億美元，預計未來十年將 <a href="https://www.reuters.com/technology/apollo-buys-stream-data-centers-bet-ai-infrastructure-boom-2025-08-06/?utm_source=chatgpt.com" target="_self">有數兆美元的機遇</a> 。</li><li><strong>挑戰日益增加</strong>：產業正面臨能源限制、複雜的許可流程及新的永續壓力，這些都是由 AI 工作負載龐大的電力需求所驅動。</li></ul><h2>資料中心壓鑄</h2><p>為了回應這些挑戰，製造業正在重新思考資料中心的設計與運作方式。能源效率成為首要考量，營運商正採用更智慧的冷卻系統、再生能源及碳中和策略，以因應日益增加的工作量。</p><p>性能要求也在不斷提高。AI 與雲端服務的快速採用，需要能處理更高頻寬與更複雜運算模型的硬體，同時在較高的熱壓力下仍能維持可靠性。這些壓力使得材料與製造方法的選擇比以往更為重要。</p><p><a href="/die-casting-technologies" target="_self">壓鑄零件</a>對於高性能<strong>、輕量化且</strong>需要<strong>高效熱管理與結構完整性</strong>的零件來說，變得越來越重要<a href="/metals/aluminum" target="_self">。</a>鋁、鋅和鎂等合金，提供當今超大規模基礎設施所需的強度、散熱與精準度。&nbsp;</p><p>&nbsp;</p><h3>為什麼壓鑄對資料中心基礎設施至關重要</h3><p><a href="/metals/aluminum" target="_self">鋁、</a><a href="/metals/zinc" target="_self">鋅</a>與<a href="/metals/magnesium" target="_self">鎂</a>合金的壓鑄技術，特別適合資料中心的需求。其優點包括能大量生產相同零件、提供薄壁且精密的零件，以及將特徵直接整合到鑄件中，從而減少組裝步驟與成本。</p><h4>熱管理</h4><ul><li><strong>高熱導率</strong>：壓鑄散熱器、外殼及液冷元件必須有效散熱，來自 CPU、GPU 及其他高效能處理器。鋁等合金因其優異的熱性能而理想，例如散熱和天然電磁干擾屏蔽，</li><li><strong>精密與複雜幾何</strong>結構：先進的壓鑄技術使得密封密封的單件，嵌入微結構，提升液冷性能。</li><li><strong>輕量化材料</strong>：鋁合金與鎂合金提供必要的強度與剛性，同時保持組件輕量化，這對大型伺服器部署至關重要。</li></ul><h4>結構完整性</h4><ul><li><strong>耐用性</strong>：壓鑄零件堅固耐用，能承受震動、溫度波動及反覆操作。</li><li><strong>高強度合金</strong>：強化肋條與優化設計提升穩定性與剛性，且不增加多餘材料或重量。</li><li><strong>耐腐蝕</strong>性：保護塗層與合金選擇確保在多元作業環境中延長使用壽命。</li></ul><h4>製造精密</h4><ul><li><strong>高精度與一致性</strong>：高壓壓鑄能提供卓越的尺寸控制，製造出能無縫融入資料中心組件的零件。</li><li><strong>製造設計（DFM）：</strong>穩定的壁厚、適當的吃水角度及優化的刀具設計，能提升良率、降低成本並延長刀具壽命。</li><li><strong>客製化外殼</strong>：客製化壓鑄外殼可最大化氣流與熱性能，適合專用設備。</li></ul><h4>品質與永續性</h4><ul><li><strong>流程監控</strong>：自動化與即時資料收集提升品質管控，機器學習則協助偵測與預防缺陷。</li><li><strong>認證</strong>：ISO <a href="/certifications" target="_self">9001 與 NADCA 認證</a> 等標準確保品質與可靠性的可重複性。</li><li><strong>永續實踐</strong>：壓鑄產業日益使用回收合金、節能機械及環保塗層與潤滑劑，以減少環境影響並支持循環經濟。&nbsp;</li></ul><p>&nbsp;</p><h3>Dynacast 在關鍵資料中心應用中的角色</h3><p>壓鑄提供 <a href="/industries/enterprise-technology" target="_self">現代資料中心</a>所需的精確度與一致性，製造出精密公差與複雜幾何形狀的零件，能無縫整合進高效能系統。</p><p>主要應用包括：</p><ul><li><strong>金屬外殼、外殼與蓋</strong>板：用於伺服器機箱及電信設備的鋁合金壓鑄外殼，提供強度、耐用性及熱導率。</li><li><strong>散熱片</strong>：外殼內整合式散熱片提升熱傳導，有時甚至免除獨立冷卻組件的需求。</li><li><strong>精密小型金屬零件</strong>：從網路設備到光纖連接器，壓鑄提供嚴格的公差與重複性。</li><li><strong>結構與安裝硬體</strong>：支架、機架及電力分配單元受益於堅固且穩定的壓鑄零件。</li><li><strong>AI 伺服器專用元件</strong>：隨著 AI 工作負載帶來新的熱與結構需求，壓鑄技術能為次世代運算量身打造優化的解決方案。</li></ul><p>隨著超大規模成長加速，以及 AI 推動前所未有的基礎設施需求，對可靠且高效能元件的需求前所未有地迫切。Dynacast 確保資料中心不僅能應對當前挑戰，更能以精準、耐用與高效率大規模推動未來的數位經濟。</p>

Dynacast die cast cooling parts for data centers

Dynacast_Resources_Enterprise Technology

Dynacast 提供高性能壓鑄元件，提升現代資料中心基礎設施的強度、冷卻與效率。

資料中心壓鑄解決方案 |Dynacast

了解 Dynacast 的精密壓鑄如何支持日益成長的資料中心產業。了解鋁、鋅與鎂合金如何為 AI 驅動的基礎設施提供強度、熱效率與可靠性。

以 Dynacast 壓鑄技術驅動資料中心的未來

<h2>解鎖更快、更有效率的設計流程</h2><p>壓鑄工程師持續面臨快速交付高品質且可行零件的壓力。在快速變化的產業中，成功的關鍵在於聰明的策略與合作夥伴關係。製造設計（DFM）是從一開始就把事情做好的關鍵。</p><p>在初期設計階段與供應商密切合作，能帶來決定性的影響。這不只是創造一個角色;重點在於優化性能、成本與製造性。有效的DFM流程確保您的設計已準備好投入生產，避免日後昂貴的延誤與重新設計。</p><h3>您將學到的內容：</h3><p>加入 Dynacast 的資深應用工程師 Max Gondek 與北美銷售經理 Travis Baca，參加我們的免費隨選線上研討會「從原型到生產：掌握 DFM 流程」。</p><p>他們分享了幫助你的重要技巧：</p><p>&nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; • 在不犧牲強度的前提下，盡量減少零件重量。</p><p>&nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; • 優化牆厚以控制成本。</p><p>&nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; • 掌握零件設計的理想繪圖角度。</p><p>&nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; &nbsp; • 使用圓角和半徑來加強鑄造。</p><p>準備好簡化您的設計流程並加速上市時間了嗎？</p><p><strong>填寫表單即可隨選觀看線上研討會！</strong></p>

Automated conveyor belt transporting die cast parts

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精通壓鑄的DFM流程。參加我們免費的線上研討會，與 Dynacast 專家共度，學習如何優化零件、降低成本並加速上市時間。

從原型到量產 |Dynacast 網路研討會

歡迎加入 Dynacast 資深應用工程師的免費線上研討會「從原型到生產：掌握 DFM 流程」。了解有效的DFM流程如何確保您的設計準備好量產，避免日後昂貴的延誤與重新設計。

铝压铸